Large-Scale Power Grid ADPSS Electromagnetic Transient Modeling Method and Software Implementation Based on PSD-BPA Data

doi:10.11930/j.issn.1004-9649.202309070

Abstract

Abstract:

With the increasing scale of new energy, flexible DC, FACTS and other new power electronic equipment connecting to the power grid, the operational characteristics of the new large-scale power grid have undergone significant changes, and electromagnetic transient refined simulation has become an important means of future power system simulation. However, the difficulty of electromagnetic transient modeling seriously restricts the widespread application of electromagnetic transient simulation. To address this challenge, a technical solution for quickly converting BPA data into ADPSS (advanced digital power system simulator) electromagnetic transient models was proposed, and corresponding software was developed. Through technical means such as modeling control by group, mapping modeling, user defined modeling, topology optimization layout, etc., the rapid automated conversion modeling from BPA data to ADPSS data was achieved. Finally, based on the BPA regional power grid data, a full electromagnetic transient modeling of a provincial power grid was completed using this software with the example scale exceeding 5000 three-phase nodes, and the modeling efficiency was greatly improved. The simulation results verified the effectiveness of the conversion modeling program.

Key words: electromagnetic transient simulation, modeling control by group, mapping modeling, user defined modeling, topology optimization layout

Shuwen XU, Guying ZHUO, Zhuang LI, Min LIU, Qing MU. Large-Scale Power Grid ADPSS Electromagnetic Transient Modeling Method and Software Implementation Based on PSD-BPA Data[J]. Electric Power, 2024, 57(8): 182-189.

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URL: https://www.electricpower.com.cn/EN/10.11930/j.issn.1004-9649.202309070

https://www.electricpower.com.cn/EN/Y2024/V57/I8/182

Figures/Tables 9

References 22

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元件类型	BPA模型	ADPSS模型
发电机	MG/MF卡+M卡	PARK发电机
变压器	T卡+R卡	两绕组变压器、三绕组变压器
交流线	L卡+LO卡	集中参数线路、分布参数线路
线路高抗	L+卡 + LO+卡	耦合RL元件
负荷	LA/LB卡	静特性负荷
负荷	ML/MB/MJ/MK卡	综合负荷
调压器	FM/FN/FO/FP/FQ/FR/FS/ FT卡 + F+卡	3~10型
调压器	FU/FV卡+ F+卡 + F#卡 + EL卡 + EL+卡	11~12型
电力系统稳定器	SF/SP/SS/SG卡	2型
电力系统稳定器	SI卡+SI+卡	4型
调速器	GS +TA/TB和GH卡	1型
调速器	GJ+GA+TB+GX卡	4型

元件类型	BPA模型	ADPSS模型
发电机	MG/MF卡+M卡	PARK发电机
变压器	T卡+R卡	两绕组变压器、三绕组变压器
交流线	L卡+LO卡	集中参数线路、分布参数线路
线路高抗	L+卡 + LO+卡	耦合RL元件
负荷	LA/LB卡	静特性负荷
负荷	ML/MB/MJ/MK卡	综合负荷
调压器	FM/FN/FO/FP/FQ/FR/FS/ FT卡 + F+卡	3~10型
调压器	FU/FV卡+ F+卡 + F#卡 + EL卡 + EL+卡	11~12型
电力系统稳定器	SF/SP/SS/SG卡	2型
电力系统稳定器	SI卡+SI+卡	4型
调速器	GS +TA/TB和GH卡	1型
调速器	GJ+GA+TB+GX卡	4型

ADPSS变量名	BPA变量名	映射规则
$ {I_{\rm d}} $	/	递增序号
$ {I_{\rm code}} $	/	模型号：401
$ {C_{\rm nm}} $	/	DPLine+递增序号
$ {K_{\rm V}} $	$ \rm dat.L.KV1 $	$ {K_{\rm V}} = K_{\rm V1} $
$ {L_{\rm ength}} $	$ \rm dat.L.miles $	$ {L_{\rm ength}}{\text{ = }}\rm miles/0.621\;371\;2 $
$ {R_{\rm e1}} $	$ \rm dat.L.R $	$ {R_{\rm e1}} = R/{L_{\rm ength}} $
$ {L_{\rm e1}} $	$\rm dat.L.L $	$ {L_{\rm e1}} = L/{L_{\rm ength}} $
$ {C_{\rm e1}} $	$\rm dat.L.B $	$ {C_{\rm e1}} = B/{L_{\rm ength}} $
$ {R_{\rm e0}} $	$\rm swi.L0.{R_0} $	$ {R_{\rm e0}} = {R_0}/{L_{\rm ength}} $（若无LO卡或未填对应参数，则按式（1）计算$ {R_0} $）
$ {L_{\rm e0}} $	$\rm swi.L0.{X_0} $	$ {L_{\rm e0}} = {X_0}/{L_{\rm ength}} $（若无LO卡或未填对应参数，则按式（2）计算$ {X_0} $）
$ {C_{\rm e0}} $	$\rm swi.L0.{B_a}_0 $/ $\rm swi.L0.{B_b}_0 $	1）若$ {B_{\rm b}}_0 = 0 $或不填，则$ {C_{\rm e0}} = {B_{\rm a}}_0/{L_{\rm ength}} $ 2）若$ {B_{\rm a}}_0\neq {B_{\rm b0}} $且均不为0，则$ {C_{\rm e0}} = \dfrac{{{B_{\rm a}}_0+{B_{\rm b0}}}}{{2{L_{\rm ength}}}} $ 3）若$ {B_{\rm a0}} $和$ {B_{\rm b0}} $均不存在，则按式（3）计算$ {B_0} $，然后计算$ {C_{\rm e0}} = {B_0}/{L_{\rm ength}} $

ADPSS变量名	BPA变量名	映射规则
$ {I_{\rm d}} $	/	递增序号
$ {I_{\rm code}} $	/	模型号：401
$ {C_{\rm nm}} $	/	DPLine+递增序号
$ {K_{\rm V}} $	$ \rm dat.L.KV1 $	$ {K_{\rm V}} = K_{\rm V1} $
$ {L_{\rm ength}} $	$ \rm dat.L.miles $	$ {L_{\rm ength}}{\text{ = }}\rm miles/0.621\;371\;2 $
$ {R_{\rm e1}} $	$ \rm dat.L.R $	$ {R_{\rm e1}} = R/{L_{\rm ength}} $
$ {L_{\rm e1}} $	$\rm dat.L.L $	$ {L_{\rm e1}} = L/{L_{\rm ength}} $
$ {C_{\rm e1}} $	$\rm dat.L.B $	$ {C_{\rm e1}} = B/{L_{\rm ength}} $
$ {R_{\rm e0}} $	$\rm swi.L0.{R_0} $	$ {R_{\rm e0}} = {R_0}/{L_{\rm ength}} $（若无LO卡或未填对应参数，则按式（1）计算$ {R_0} $）
$ {L_{\rm e0}} $	$\rm swi.L0.{X_0} $	$ {L_{\rm e0}} = {X_0}/{L_{\rm ength}} $（若无LO卡或未填对应参数，则按式（2）计算$ {X_0} $）
$ {C_{\rm e0}} $	$\rm swi.L0.{B_a}_0 $/ $\rm swi.L0.{B_b}_0 $	1）若$ {B_{\rm b}}_0 = 0 $或不填，则$ {C_{\rm e0}} = {B_{\rm a}}_0/{L_{\rm ength}} $ 2）若$ {B_{\rm a}}_0\neq {B_{\rm b0}} $且均不为0，则$ {C_{\rm e0}} = \dfrac{{{B_{\rm a}}_0+{B_{\rm b0}}}}{{2{L_{\rm ength}}}} $ 3）若$ {B_{\rm a0}} $和$ {B_{\rm b0}} $均不存在，则按式（3）计算$ {B_0} $，然后计算$ {C_{\rm e0}} = {B_0}/{L_{\rm ength}} $

序号	元件类型	元件数量
1	三相母线	5021
2	发电机	1769
3	输电线	2591
4	变压器	2630
5	负荷	336